Showing posts with label USAF. Show all posts
Showing posts with label USAF. Show all posts

Saturday, May 25, 2019

AFRL communicates the impact of military technology at DOD Lab Day


Air Force Chief Scientist Dr. Richard Joseph, right, stopped by DOD Lab Day to learn more about AFRL technologies. Bryan Foos, a materials engineer, explains how the Terahertz Probe, a quality assurance tool, improves aerospace coating measurement capabilities. (U.S. Air Force photo/Keith Lewis)
https://www.robins.af.mil/News/Article-Display/Article/1856119/afrl-communicates-the-impact-of-military-technology-at-dod-lab-day/

By Whitney Wetsig


ARLINGTON, VA. – Scientists and engineers at the Air Force Research Laboratory displayed advancements in 13 different technology areas at the Department of Defense Lab Day April 25, in the Pentagon center courtyard.
This biennial event highlights the innovative research and development work led by groups within the Defense Laboratory Enterprise, which includes defense laboratories, warfare centers and engineering centers. Technology exhibitors included the U.S. Army, the Navy, the Air Force and the medical community, while other groups promoted educational initiatives and scholarship opportunities. AFRL employees presented various technologies that address current and future military needs to attendees, which included Pentagon employees, members of Congress, Congressional staffers, members of the media and STEM students.
DOD Lab Day supports various agendas. The event provides scientists and engineers with the opportunity to interact with senior leadership; it encourages collaboration between the services, allows the services to promote new technologies and connects these technologies with potential customers.
Air Force Chief Scientist Dr. Richard Joseph stopped by the Pentagon center courtyard to learn more about AFRL technologies. When asked about the biggest challenge that our nation faces, Joseph cited “complacency” as an issue that must be addressed by the scientific and technical (S&T) community.
“We can never assume that all we have to do is fix next year’s problems and then we’re alright,” he said. “We need to always be thinking about where we are going to be in 10, 15 or 20 years, and that’s what this [event] is all about.” 
Joseph emphasized the importance of “the response of the S&T [scientific and technical] community.” He commended DOD Lab Day’s focus on “communicating the impact of technology to the operators.”
The location is key since “it brings science and technology right into the home of the operator,” he said.
A number of other senior-level leaders from across the country attended the event.
Col. Gary Haase, the director of AFRL’s Munitions Directorate at Eglin Air Force Base, Fla., said that it’s “important [for AFRL] to showcase technologies to get the word out to the larger DOD community. Technology is an important aspect of who we are as the Air Force. Since our goal is to stay on the cutting edge of technology, we must show that connection and relevancy to future capabilities.”
The featured technologies represent various stages of maturity spanning the full spectrum of research, development and application. AFRL’s display included one technology that will soon transition to a funded program, one that provides a new service capability in response to an approved DOD need.
Capt. Blake McCollum, an AFRL engineer, says that AgilePod, an interchangeable system that enables fast, easy connection of sensors to aircraft, “could be a standard not just for the Air Force but for the DOD as well,” and this event could “create a new pathway for that to happen.” McCollum has firsthand experience interacting with the other military branches. During the event, his father, Vice Adm. Luke McCollum, stopped by to show his support.
Jeffrey Stanley, the deputy assistant secretary of the Air Force for science, technology and engineering, acquisition and logistics, explained that these types of events highlight “the breadth and the depth of the technical expertise at AFRL.” He thinks that several of the AFRL technologies [presented at DOD Lab Day] have the ability to transition.
“We’ve got a lot of great ideas,” he said. “We’re always balancing funds between the current readiness of the Air Force, and the future Air Force we need.”
Dr. Michael Griffin, the undersecretary of defense for research and engineering, echoed this sentiment and reinforced the purpose of the Defense Laboratory Enterprise.
“We need to remember that our goal is always, ultimately, mission impact. Our customer is the American warfighter,” he said.
Developing technology for use across the DOD was a common topic of discussion among exhibitors and attendees.
While presenting the Secure, Live Advanced Technology Environment (SLATE), Lt. Col. Ross Uhler said he was excited to “demonstrate a much-needed capability that spans across all of the services.” He explained that SLATE benefits all warfighters since various communities can “tap into this Live, Virtual Constructive framework for large-scale training events.”
SLATE connects live aircraft sensors with virtual and constructive data in a secure and realistic combat environment. This cost-effective, realistic approach supports training gaps for air, land, space, multiservice and multi-national users.
“The military has been talking about operating in a joint realm for ,” said Uhler. “This [represents] a way that we can put all [our] assets in the same training environment.”
Haase said he appreciated the opportunity to interface with folks across AFRL and the DOD. He enjoyed learning about the activities of the other labs since he strives to identify areas of potential collaboration.
The Pentagon center courtyard, an outdoor venue lined with trees, walkways and rectangular tents, housed the various displays that made up DOD Lab Day. Each of the AFRL technologies showcased had its own backdrop that collectively stretched across the entire length of the 150-foot tent.
Michael Gudaitis, from AFRL’s Information Directorate at Rome, New York, presented Software Defined Radio, a novel approach that can give [the Air Force] an unprecedented new capability. He asserts that, “unless [the customer] sees a technology and witnesses a demonstration, then they really can’t appreciate how far we’ve come from the old [technology].” This new capability will eventually enable all warfighters to communicate with each other, he said.
1st Lt. Ian Goodbody, also from Rome, explained that “customer knowledge and support is crucial to transitioning technology out of the lab and to the warfighter. These events give us a chance to show off the latest advances in [communications hardware and software], and we can get [the customer] as excited and interested as we are in this product.”
2nd Lt. James Wymer from Kirtland Air Force Base in New Mexico highlighted the capabilities of the [High Power Microwave] System, which utilizes an extremely high power burst of energy to create a variety of effects on a target's electronics.
“This technology will fundamentally alter the battlefield for our warfighters by giving them a non-kinetic, disrupt and disable capability against enemy electronics,” said Stephen Langdon, AFRL branch chief for HPM.
Dr. Michael Fanto, an AFRL physicist, detailed how quantum science will be a disruptive and groundbreaking technology area for the warfighter. 
“We’re solving some of the engineering challenges now, and it’s really exciting,” he said. Quantum science will enhance data encryption and information processing, both of which are critical capabilities for the DOD, Fanto says.
Since the event coincided with Bring Your Child to Work Day, AFRL staff communicated complex information to kids in a way they could relate to and understand. Maj. Elizabeth DeNeve, a program manager for the ESPA Augmented Geosynchronous Laboratory Experiment (EAGLE), asked children to think about the ways they use space on a daily basis, for instance through GPS navigation and communication tools (satellite TV and radio). She used this basic understanding to explain how the Air Force is working to make space more affordable and accessible for future generations.
While explaining the mission of the lab, AFRL’s S&T 2030 Business Outreach Lead, Lenell Kern told one boy, “we create the technology that keeps your daddy safe.” As she knelt down, she said, “Our goal is to provide him with the tools that he needs so that he comes home safely to you.” Kern winked, and the boy looked up at his dad with a smile.

Friday, May 25, 2018

OT- LUNA Blog-Defending Our Defenses: Luna is Developing Sensing and Analysis Tools to Reduce Missile Lifecycle Costs








http://lunainc.com/defending-defenses-luna-developing-sensing-analysis-tools-reduce-missile-lifecycle-costs/

During the time before deployment and usage, armaments (missiles, rockets, bombs) are placed in storage for long durations and exposed to a variety of environmental conditions during transportation.  Training missions, in which armaments are loaded and unloaded from active aircraft, can expose them to the severe flight environment, stressing the systems’ electronics, structures, and payload.  Throughout their lifecycles, missile systems may experience a multitude of environmental and physical effects that can induce degradation.  Tracking individual missiles is a challenge, but knowing their history of environmental exposure and operational use is next to impossible.  Two missiles of the same age could have very different use profiles and very different maintenance and sustainment needs. 
Sensors exist that monitor some environmental effects on armaments, but due to power limitations none are currently able to remain operational for a full armament lifetime.  Any system must be battery operated as there are no power supplies available in missile storage locations, so no sensors have been able to identify and log time spent in various states such as in storage or installed on aircraft.  As long term exposure to harsh environments during storage and transportation can have significant negative effects on missiles, bombs, and other armaments, it has become critical to understand the full life-cycle exposure of in-service weapon systems.  Rudimentary efforts at better understanding storage and handling conditions using small MEMS accelerometers have been attempted, but up to now there is no sensor system available that is able to track and identify the full profile of environments – in storage, on the flightline, on aircraft, or in the air – that would lead to more efficient sustainment through condition based maintenance. 
Building on our extensive experience with low power sensing and wireless communication, Luna is currently developing a solution to track the environmental and physical parameters experienced by missile armaments in a form factor that is readily applicable to existing platforms.  Luna’s system, known as ArmaLife™, will collect key environmental parameters and use this data to classify the missile as being in one of four states: indoor storage, ground transportation/handling, active/open storage, and flight.
ArmaLife: Lifecycle Monitoring for Improved Reliability, Maintainability, and Availability
The ArmaLife sensor will be small and low power with an integrated battery.  It will be designed so it can be retrofit to the outside of an existing missile casing for rapid upgrading of current weapons.  The sensor system will be used to monitor environmental factors experienced by the armament over its entire lifetime (at least 20 years) such as vibration, temperature, relative humidity, ultraviolet intensity, lux (ambient light) intensity, and barometric pressure.  By combining these parameters using sensor fusion algorithms, the ArmaLife system will quantify the amount of time an armament has spent in indoor/outdoor storage, in transport, on a flightline, installed on a plane, or in flight (Figure 1).  The system will be developed with extremely low power consumption components to ensure extended sensor lifetimes with limited power sources.  The ArmaLife hardware will use small, reliable, inexpensive sensor designs to enable ease of integration into legacy and future armament systems. 


Figure 1. ArmaLife sensor system architecture and representative data collected from handling a 4” steel test pipe.
In addition to recording armament status information and environmental exposure, the sensing system will categorize vibration events into low, intermediate, and high levels.  To provide additional information for determining armament reliability, maintainability, and availability (RM&A), the sensing system will record min/max values and duration of environmental factors experienced by the missile.  To make collected data easily accessible, the ArmaLife sensor system will use a radio frequency identification (RFID) transponder chip to monitor for a wake-up command from a maintainer, in turn initiating the transfer of collected data through wireless communications.  The ArmaLife system is currently being engineered to be ultra-low profile for external armament integration, while not interfering with mechanical, electrical, or aerodynamic operation of the weapon.
ArmaLife Hardware and Targeted Data Analysis Will Lead to Better Condition Based Maintenance
The ability to monitor critical parameters and use them to classify armament status throughout the weapon system’s life-cycle will allow the Air Force to perform high efficiency condition based maintenance.  The Air Force will be able to observe how long the armaments resides in each lifecycle stage, such as handling and transportation (Figure 2).  Engineers and operators can then review exposure conditions and analyze what status and exposure effects have contributed to the current condition of their assets.  The ArmaLife system will give the Air Force another data point in assessing missile reliability, maintainability, and availability for optimization of current maintenance schedules to effectively execute condition based maintenance. 

Figure 2. Handling of AIM-9X missile. (U.S. Air Force photo/Levin Gaddie, http://www.eglin.af.mil/News/Photos/igphoto/2001863705/)

Wednesday, May 23, 2018

OT-LUNA Blog-US Air Force and Luna Team Up on Next-Gen Coatings Testing



http://lunainc.com/air-force-luna-team-next-gen-coatings-testing/

In a recently published AFRL article titled “New Corrosion Evaluation System Makes Sense for Air Force”, Dr. Chad Hunter of Air Force Research Laboratory (AFRL) discusses how CorRESTM from Luna Innovations enables the Air Force to rapidly introduce new corrosion protection and control technologies with minimal risk. According to Dr. Hunter, “There’s a lot of variability in corrosion tests, and CorRES allows us to monitor this variability and provides quantitative data that helps us better understand a coating’s performance in the lab so we can project how it will perform in the operational environment.”
CorRES is an evaluation system providing continuous measurement of coatings performance and test environment over time. Quantitative, time dependent measurements allow for more accurate and thorough determination of coating performance.  CorRES measurements offer a significant advantage to those who are either interested in shortening new coatings/raw materials development time, or are responsible for coating qualification and want to reduce performance risk associated with new coating introductions.  
The technology was developed in partnership between Luna, AFRL, and the Air Force Corrosion Prevention and Control Office. Dr. Hunter and his team have been instrumental in supporting Luna’s development of a test system which meets operational and durability requirements for use in accelerated test chamber and outdoor test environments. CorRES is now available for purchase and is used by government and industry customers across the world. Contact sensinst@lunainc.com for more information.
                                                         
Quantified, Real-Time Coatings Performance
CorRES multi-sensor panels (MSP) with interdigitated electrode (IDE) sensors are used to quantify coating performance continuously throughout a test.  The MSP are designed to be coated and scribed using conventional panel preparation techniques. Measurements are made per ANSI/NACE Standard TM0416-2016 “Test Method for Monitoring Atmospheric Corrosion Rate by Electrochemical Measurements”.
Versatile
CorRES test systems are designed to withstand the harshest conditions to allow for long term use in corrosion test chambers and outdoor environments.  When used in laboratory test chambers the CorRES operates off of line power, and for prolonged unattended outdoor tests, the system can be supplied with battery pack.  This low-power device can collect coating performance data for extended periods of time (> 1year) without a battery replacement.
Data can be downloaded from the Docking Platform by user command. Luna’s intuitive graphical user interface provides data visualization and automated data processing.  The data is retrieved in common file format for easy exporting to analysis and processing software.

Expand Your Understanding
  • High throughput measurement for performance testing and coating formulation development
  • Continuous quantitative measures of corrosion rate and cumulative degradation for protective coating and inhibitor selection and coating qualification
  • Measurements of coating performance and alloy corrosion for specific atmospheric exposures or service environments
  • Automated environmental data collection and record keeping for comparing conditions and results among test chambers, between labs, and relative to previous tests
  • Correlate laboratory testing, outdoor exposures, and service environment evaluations for specific applications
  • Accelerated coatings development through continuous performance monitoring, no need to remove panels from the chamber
  • Mechanistic studies of degradation using multimodal measurements of barrier properties, free corrosion, and galvanic corrosion combined with environmental conditions

Wednesday, May 31, 2017

OT- LUNA BLOG -Luna’s Corrosion and Coating Evaluation System is an Air Force SBIR Success Story



May 18, 2017
(My Note: This provides some "color" to the earlier link on this blog, on this topic. https://terahertztechnology.blogspot.com/2017/05/ot-sbir-sttr-success-luna-innovations_16.html)

Corrosion prevention and control represents a significant driver of costs for the United States Armed Forces.  For the Air Force alone, multi-billion dollar annual expenditures are needed to combat corrosion of aircraft.  The most effective means of corrosion control is through protective coatings.  In partnership with the Air Force though the Small Business Innovation Research (SBIR) program Luna has developed a new technology that improves upon laboratory evaluation of aerospace coatings.  The Corrosion and Coatings Evaluation System (CorRES) offers a better way to measure the ability of coatings to protect aircraft structures from corrosion, which can lead to accelerated development and adoption of high performance coatings (Figure 1).  CorRES was recently featured by the Air Force as a SBIR Transition Success Story (https://www.sbir.gov/node/1246401).

CorRES_test_rack
Figure 1. The Corrosion and Coating Evaluation System (CorRES) test rack and docking platform assembly with multi-sensor panel array, standard test panels, and mass loss coupons.


Conventional Coating Tests Are Lacking
Existing test methods are subjective measures of coating performance.  They rely on relatively simple visual inspections of coated test panels.  There is no quantifiable result of the robustness of the coatings and corrosion inhibitors during accelerated tests.  Consequently, the ability of developers or users to compare the relative performance of various coatings and select the most effective system for a given application is decreased.
The Future of Coating Testing
Our CorRES measures the ability of coatings to protect aircraft structures quantitatively.  It can be applied in any environment currently utilized for coating evaluation testing including at outdoor exposure sites or within accelerated test chambers.  Sensor panels, which are prepared, painted, and tested like traditional panels, are used to measure the ability of a coating to protect a substrate from the environment as well as inhibit corrosion at a defect (Figure 2).  Measurements include the barrier properties of the intact coating and the corrosion rate of the engineering alloy or dissimilar metal couple of interest at a defect.

Multi-sensor_panel.png
Figure 2. Multi-sensor panel with interdigitated electrode (IDE) sensors to quantify coating barrier properties (Gold [Au] IDE), free corrosion rate of an engineering alloy (Aluminum [Al] IDE fabricated from AA7075-T6) and galvanic corrosion (Aluminum/Stainless Steel [Al/SS] IDE fabricated from AA7075-T6 and 316 stainless steel).


Corrosion and Coating Sensors Are Available Now for Purchase Online
The CorRES system and accessories, in addition to our corrosion monitoring system, are available for purchase online at https://devstore.lunainc.com/ .

This material is based upon work supported by the U.S. Air Force Research Laboratory under Contract No. FA8501-13-C-0026.  The content of the information does not necessarily reflect the position of the policy of the Government, and no official endorsement should be inferred.

Tuesday, May 16, 2017

OT-SBIR-STTR-Success: Luna Innovations Inc.



https://www.sbir.gov/node/1246401

The Air Force is taking aim at its multi-billion dollar aircraft corrosion challenges through a partnership with a Virginia-based small business.
Luna Innovations Inc., with support from the Small Business Innovation Research/Small Business Technology Transfer (SBIR/STTR) Program, developed technology that improves upon the laboratory evaluation of aerospace coatings and provides service-life estimates for coatings in actual environments. Having a better way to measure the effectiveness of coatings that protect aircraft structures from corrosion and environmentally-produced cracks will allow the Air Force to accelerate the adoption of new coatings while reducing the risk associated with their integration.
The Air Force Life Cycle Management Center recently selected Luna Innovations’ corrosion and coating evaluation system – known as CorRES – as part of its efforts to measure the severity of aircraft service environments through base deployments. The system is expected to help the Air Force reduce its nearly $6 billion annual cost of addressing aircraft corrosion.
 
“The CorRES system is well aligned with Air Force Life Cycle Management Center goals for improved corrosion management and sustainment practices,” said David Ellicks, a senior materials engineer at the Air Force Corrosion Prevention and Control Office. “CorRES is also being considered for use as part of the Air Force’s new accelerated corrosion test system at the Air Force Research Laboratory.
 
CURRENT TESTS OFTEN LACK CRITICAL DATA
Since corrosion-inhibiting primers are the first line of defense for maintaining aircraft structural integrity, ensuring new products match or exceed the performance of legacy products is paramount.
The problem is that conventional coating test methods are subjective measures of performance. Expert examination of coated panels are often presented in a pass/fail format. These tests focus on aesthetic performance and do not provide data of localized corrosion processes that represent the greatest risk to aircraft structures. As a result, they lack critical coating system characteristics needed for developers or users to select the best coating for a given application.
 
The uncertainty associated with conventional coating tests presents a risk for the introduction of new, safer and environmentally sound coatings for aerospace applications.
 
BEHIND THE NEW TECHNOLOGY
Luna Innovations’ CorRES measures the ability of coatings to protect aircraft structures. It can be used for laboratory or outdoor coating testing and includes sensor panels that can be painted and tested like traditional materials. The sensor panels measure the ability of a coating to protect a substrate from the environment, or in the case of coating defects, the ability to inhibit corrosion.
 
Each system produced by the company includes continuous environmental measurements of temperature and humidity. A module for evaluating the ability of coatings to protect alloys from stress corrosion cracking and corrosion fatigue is also part of the system. Data collection and storage is fully automated so that environmental measurements, along with corrosion rate and crack velocity, are continuously measured throughout a test.
 
This Air Force SBIR/STTR Program – with additional support from the Air Force Commercialization Readiness Program – allowed Luna Innovations to advance the technology from a basic concept to a fully commercialized product.
 
It has since been used by the Air Force, the Navy, aircraft manufacturers and aerospace coating manufacturers. Additionally, the sensors that form the basis of the coating measurement system are aligned with the U.S. national standard for monitoring atmospheric corrosion and coating performance.

Monday, July 11, 2016

OT- USAF awards Luna Innovations $748,656.00 SBIR Phase II contract-Quantitative Gun Barrel Diagnostics with Eddy Current Techniques and Artificial Intelligence


https://www.sbir.gov/sbirsearch/detail/1159773

Amount:
$748,656.00
Award Year:
2016








ABSTRACT: The useful life of medium caliber gun barrels is dominated by fatigue cracking initiated early in the weapons deployment. Fatigue cracks worsen in severity throughout the life of the barrel until they reach a critical size, indicating end of life. During the Phase I effort, Luna demonstrated that eddy current (EC) techniques are effective in detecting both machined and fatigue-induced cracks inside gun barrels. EC-based measurements performed on several medium caliber barrels were not influenced by the intricate rifling profile of the bore of the barrel while remaining sensitive to cracks ranging from under 0.02 inches to greater than 0.375 inches. In the Phase II effort, Luna proposes development of an EC-based prototype with artificial intelligence post-processing algorithms for complete autonomy in assessing fatigue condition within barrels. A man-portable prototype for use on flight lines will be assembled, allowing for barrel evaluation without requiring their removal from the aircraft. Based on a multi-frequency excitation scheme, an improved design of the probes, and a trained neural classifier, the prototype will identify the number of existing cracks around the barrel circumference and assess their individual depths and locations.; BENEFIT: This project directly addresses the need for increasing savings and reducing maintenance cost of medium caliber gun barrels. Maintenance time and costs will be reduced by increasing barrel usage and reducing barrel replacement frequency. Currently, medium caliber gun barrels are retired when a maximum number of rounds is reached, often leading to premature removals. The developed system will allow for continued barrel usage throughout its entire useful life. The overall anticipated result of this effort is development of a new tool for assessing the condition of medium caliber gun inventory, replacing todays statistically-based gun retirement protocol with a condition-based inventory management protocol. The proposed technology has broad market potential and meets a significant economic and national security need. Anticipated commercial uses include pipe inspection in the electric power, marine propulsion, and petrochemical industries.

Thursday, January 8, 2015

Picometrix, LLC awarded contract for $1,440,980-US AirForce "A--Panel Step/Gap Mismatch Measurement"


Solicitation Number:
Agency: Department of the Air Force
Office: Air Force Materiel Command
Location: AFRL/RQK - WPAFB
https://www.fbo.gov/?s=opportunity&mode=form&id=380948f770143c0a0c97c3ab58648ada&tab=core&_cview=0
:
Award Notice
:
January 5, 2015
:
FA865015C5075
:
1440980
:
PICOMETRIX, LLC, PICOMETRIX 2925 BOARDWALK ST, ANN ARBOR MI 48104-6765
:
Added: Jan 05, 2015 3:30 pm
No Description Provided
:
USAF/AFMC, AFRL WRIGHT RESEARCH SITE, 2130 EIGHTH STREET, BUILDING 45, WRIGHT-PATTERSON AFB OH 45433-7541
:
MICHAEL T ENGLE, Contracting Negotiator, Phone 937-713-9921 x, Email michael.engle.6@us.af.mil; CATHERINE A STROPKI, Contracting Officer, Phone 937-719-9901 x, Email catherine.stropki.1@us.af.mil

Saturday, May 31, 2014

Abstract-Air Force Awards Teraphysics Corporation Contract for E-Band Communications Amplifier Read more at http://www.redorbit.com/news/science/1113157868/air-force-awards-teraphysics-corporation-contract-for-eband-communications-amplifier/#XjGIkemYSdLRKgZJ.99


http://www.redorbit.com/news/science/1113157868/air-force-awards-teraphysics-corporation-contract-for-eband-communications-amplifier/


Providing timely information through high data rate communications enhances the situational awareness of military units engaged in combat and can be vital to their safety and the success of their mission. Such high data rate communications systems require amplifiers with broad bandwidth and high power, which can be delivered by the compact helical traveling wave tubes (TWT), under development at Teraphysics Corporation of Cleveland, Ohio.
Cleveland, OH (PRWEB) May 29, 2014
Providing timely information through high data rate communications enhances the situational awareness of military units engaged in combat and can be vital to their safety and the success of their mission. Such high data rate communications systems require amplifiers with broad bandwidth and high power, which can be delivered by the compact helical traveling wave tubes (TWT), under development at Teraphysics Corporation of Cleveland, Ohio.
On May 14, 2014, Teraphysics was awarded a Phase I Small Business Innovative Research contract from the Air Force Research Laboratory at Wright Patterson Air Force Base in Dayton, Ohio to develop a 100 Watt TWT amplifier operating over the 5 GHz of contiguous bandwidth from 71 to 76 GHz in the region of the electromagnetic spectrum, known as E-Band.
The Teraphysics amplifier achieves the demanding requirements of the Air Force by utilizing computer design techniques originated by the contract Principal Investigator, Dr. Carol Kory, Teraphysics Vice President for Technology Development, and by adopting microfabrication technology originally developed for other applications. The Teraphysics TWT achieves very wide bandwidth by using a helical slow wave circuit consisting of a miniature coil of gold wire supported by a thin diamond sheet. The result is an amplifier with nearly constant gain over the 5 GHz bandwidth. The Teraphysics TWT has the length and width of a credit card and weighs only one pound, approximately one tenth the size of a conventional device.
Teraphysics has previously developed helical devices for operation at 650 and 94 GHz. The development of the Teraphysics miniature helical TWT had previously been supported by contracts with NASA Jet Propulsion Laboratory (JPL), the Defense Advanced Research Projects Agency (DARPA), the Army Research Office (ARO), and the Air Force Office of Scientific Research (AFOSR). In addition to the military applications, the compact Teraphysics TWT is expected to have significant impact on satellite communications, communication links for unpiloted aircraft (drones), and in the backhaul of accumulated signals of wireless handheld devices to the main fiber optic telecommunications network.
To speak with Dr. James A. Dayton, Jr., Chief Technology Officer of Teraphysics, or for more technical information, please contact Christian Hunter, APR, christian(at)studiothink(dot)net.
About Teraphysics Corporation:

Located in Northeast Ohio, Teraphysics develops powerful, efficient and compact devices that operate in the millimeter and sub-millimeter (terahertz) frequency bands. The organization holds multiple patents for intellectual property used in the micro fabrication of devices designed to lead to revolutionary application and commercialization of millimeter-wave and terahertz technology. For more information on Teraphysics, visit teraphysics.com.

Read more at http://www.redorbit.com/news/science/1113157868/air-force-awards-teraphysics-corporation-contract-for-eband-communications-amplifier/#XjGIkemYSdLRKgZJ.99

Thursday, August 1, 2013

USAF- solicits Terahertz Spectrometer


Terahertz Spectrometer

Solicitation Number: FA8601-13-T-0227
Agency: Department of the Air Force
Office: Air Force Materiel Command
Location: AFLCMC/PZIO - WPAFB


:
FA8601-13-T-0227
:
Sources Sought
:
Added: Jul 31, 2013 2:44 pm
SOURCES SOUGHT SYNOPSIS
The United States Air Force, Wright-Patterson Air Force Base, Ohio is seeking potential sources to provide a Terahertz Spectrometer as described below. The purpose of this spectrometer is to support the Air Force Institute of Technology at Wright-Patterson Air Force Base.

This Sources Sought Synopsis is published for market research purposes to identify potential capable sources and to assist the Air Force in making a small business set-aside decision. The Air Force anticipates a sole-source acquisition for a Fixed Price contract.

Firms should respond to this notice if they can provide the following:

Terahertz Spectrometer:

1. The system must provide the following spectral data to allow the end-user to maximize the information gathered from the system.
a. Time domain wave form
b. Measurement of phase in the time domain
c. Terahertz (THz) intensity
d. Transmittance spectrum including phase shift
e. Absorbance spectrum
f. First and second derivative of absorbance
g. Reflectance spectrum
h. Refractive index spectrum
i. Real dielectric constant
j. Imaginary dielectric constant

2. The system must have the capability of launching the THz beams by means of fiber umbilical, as well as, having an internal THz optical beam and sample compartment. This should be done automatically and not require any internal manual interventions by the user. This allows the user to run two independent experiments without significantly affecting either experimental set up.

3. Service must be provided at the customer's site.

4. The spectral range must be at least 0.06 to 3.6 THz.

5. The sample compartment must have the capability to purge with Nitrogen or clean dry air to remove water vapor; this is an important capability in many sensitive measurements.

6. The system must be capable of supporting sample measurements in vacuum.

7. The system must have at least the following performance at different frequencies in terms of signal to noise ratios:
• Frequency of 0.9 THz* better than 11000,
• Frequency of 0.3 THz* better than 6500,
• Frequency of 2.5 THz* better than 700.

8. The system must have the capability to use an Attenuated Total Reflection (ATR) module.

9. The system must have the capability to use Cryostat.

10. The system must have the capability to use a Variable Temperature Cell (-190°C to +220°C).

11. The system must have the capability to use a Reflectance Imaging Module for terahertz imaging. Image size up to 75mm by 75mm.

12. The system must have the capability to use an external Gantry to image large samples.

13. The supplier must provide on-site training. Minimum 2 days for 2 people.

14. Unit must have a minimum of a 2 year warran

***Note: The NAICS code assigned to this acquisition is 334516- Analytical Laboratory Instrument Manufacturing with a 500 employee size standard. The Air Force reserves the right to consider a set-aside based upon responses hereto for any subsequent acquisition.

Please complete the capability statement attached to this notice and provide a (four (4) page maximum) package explaining your company's ability to provide the product described above. Any information submitted by respondents to this sources sought synopsis is voluntary. The Air Force does not intend to award a contract on the basis of this notice or to otherwise pay for the information solicited. Respondents should not construe this synopsis as a commitment by the Air Force for any purpose. The Government's evaluation of the statements received will factor into whether any forthcoming solicitation will be conducted as a sole-source acquisition, full and open competition, or as a set-aside for small businesses, or any particular small business designation (e.g. SDVOSB, HUBZone, 8(a), EDWOSB, etc.).

Responses may be submitted electronically to the following e-mail address: Joshua.Meyerhofer@us.af.mil or mailed to ASC/PZIOB, Attn.: Josh Meyerhofer, 1940 Allbrook Dr. Rm. 109, Wright-Patterson AFB, OH 45433 to be received no later than 11:00 a.m. Eastern Time, Wednesday, 14 August 2013. Any questions concerning this acquisition should be directed to Joshua.Meyerhofer@us.af.mil.

Be advised that all correspondence sent via e-mail shall contain a subject line that reads "Sources Sought Response. " Note that e-mail filters at Wright-Patterson AFB are designed to filter e-mails without subject lines or with suspicious subject lines or contents (i.e., .exe, or .zip files). Therefore, if this subject line is not included, the e-mail may not get through the e-mail filters. Also be advised that .zip or .exe files are not allowable attachments and may be deleted by the e-mail filters at Wright-Patterson AFB. If sending attachments with e-mail, ensure only .PDF, .doc, or .xls documents are sent. The e-mail filter may delete any other form of attachments.
Please consult the list of document viewers if you cannot open a file.

Capabilites Package

Type: 
Other (Draft RFPs/RFIs, Responses to Questions, etc..)
Posted Date: 
July 31, 2013
Description: Please complete attached capabilites statement.
:
1940 ALLBROOK DRIVE
WRIGHT-PATTERSON AFB, Ohio 45433-5309
United States 
:
AFIT/ENG
2950 Hobson Way Bldg 640

WPAFB, Ohio 45433
United States 
:
Joshua J. Meyerhofer
Phone: 9375224529